Cycle Springs TRIZ Cases

A corrugated outer cartridge tube bends under radial load to spread stress, enabling compact motocross fork damping without sacrificing durability.

Springs and gas dampers between the handlebar and grip parts cut shock and vibration transmission, improving rider comfort on rough roads.

Axial-force clamping fixes the front fork cylinder without pins, snap rings, or threading, cutting parts count and machining cost.

A valve-controlled hydraulic circuit lets a bicycle suspension switch between rigid and compliant modes to absorb vibration across changing terrain.

Separated rebound and compression flow paths let a bicycle suspension damper tune damping rates independently while preventing leakage.

A fork sheath with internal cavities holds a removable resonator, improving vibration absorption without weakening the bicycle structure.

A gas-filled chamber, one-way valve, and adjustable blocker give bicycle fork suspension progressive damping to resist hard bottoming.

Strategically placed cylinder communication holes equalize inner and balance chamber pressure without inner-surface grooves, simplifying manufacture.

Nested pistons and adjustable orifices separate shock absorber flow paths, enabling independent high- and low-speed compression and rebound tuning.

Adjustable cam clearance in a differential lean mechanism changes maximum vehicle lean angle to improve stability and operability across speeds.

Speed-based damping control in a three-wheeled motorcycle lean mechanism improves high-speed operability and reduces low-speed fall risk.

A single deformable joint links front, rear, and seat supports to absorb shocks while reducing bicycle frame weight and mechanism complexity.

An articulated seat support and elastic assembly absorb road impact while keeping rider height stable with lower frame complexity and cost.

A two-wheel tilting rear axle with elastic hinges improves curve stability, steering comfort, and upright parking while keeping construction simple.

A six-bar linkage separates pedaling and shock tuning in bicycle rear suspension, improving chain growth and linear shock response.

Multiple positive and negative air chambers with selective bypassing tune spring rate through travel to improve traction and reduce bottom-out.

A movable fastener and vent seal safely release pressure from a bicycle suspension chamber before service, reducing sudden fluid discharge risk.

A central spring between a two-part fork crown cuts wear-prone joints, reducing fork weight, maintenance, and cost while preserving stability.

A hard-stop, soft-body compression ring maintains headset preload, limits fork over-rotation, and leaves space for integrated control lines.

Varying lower-tube air volume and cross-section cuts casting ramp spring pressure spikes for more consistent bicycle fork response.

A seat-tube-integrated damper shields the rear suspension from dust, impact, and clothing interference while preserving bicycle appearance.

A hidden bicycle damper is shielded from dirt, external forces, and clothing interference.

A movable seat post and hydraulic damper absorb shock and vibration while the rear frame retains lateral stiffness.

A vibration isolator uses superelastic material members to attenuate mechanical disturbances transmitted through the bicycle frame.

A vehicle height adjustment system synchronizes front and rear wheel displacement ratios to maintain body posture during travel.

A floating piston transmits gas pressure to a damping chamber fluid, preventing cavitation and reducing seal adhesion in bicycle suspension systems.

A shock absorber uses a floating piston to transmit gas pressure to the damping chamber fluid, preventing cavitation and reducing seal adhesion friction.

A curved leaf spring connects the rear triangle to the main frame element, reducing frame weight while improving damping properties.

Integrating an elastic member within a guide slot absorbs impact forces, reducing weight and complexity compared to separate suspension assemblies.

Triangular linkage member with high main pivot reduces unsprung weight while maintaining linear shock leverage ratio.

A cycle wheel suspension assembly uses unequal gas piston areas in separate arms to vary leverage ratios during compression.

Nested telescoping supports inside the steerer tube minimize lateral movement while absorbing shock and vibration transmitted to the rider.

Integrated tension coil spring and elastic member adjust damping force during seat opening to reduce operating effort and preserve storage volume.

Conical pivots eliminate gaps between stem assemblies during stand-up pedaling, allowing users to adjust shock absorption strength via pre-pressing force.

Segmented spring elements absorb travel shocks and prevent rider discomfort while allowing easy battery removal without complex fasteners.

An elastomeric seat stay absorbs vibrations via viscoelastic deformation, reducing rider fatigue without adding weight.

A front arm supporting structure reduces vehicle weight and improves ride quality.

A vehicle height adjustment apparatus changes spring length in response to fluid levels to position the motorcycle chassis.

Sectioning members divide the cylinder into independent chambers, suppressing excessive compression ratios and stabilizing reaction forces.

An active valve system adjusts suspension damping characteristics in real-time using sensor feedback and configurable tuning profiles.

Handlebar-mounted waterproof display shows PSI and height percentage, enabling real-time suspension tuning for rider comfort.

Air springs adjust ground clearance and absorb uneven surface impacts via pneumatic pressure control.

A foldable electric scooter tilts its platform to reduce width for compact storage.

A six-bar linkage rear suspension system decouples pedaling forces from shock absorption to improve efficiency.

A bicycle seat post fluid device vents compressible gases from hydraulic chambers using selective permeability.

A scooter mounts its rear wheel carrier above the footboard end area to lower ground clearance while maintaining structural stability.

Fragile groove deforms under stress to redirect impact forces away from fixing points, preventing damage to the front cowl.

Asymmetric front fork geometry reduces trail distance, resolving steering responsiveness issues in three-wheel motorcycles.